(* Author: Andreas Lochbihler, ETH Zurich
Author: Joshua Schneider, ETH Zurich *)
section Simple operations: demotion, merging, composition›
theory ion
Axiomatised_BNF_CC
begin
text ‹
te mposition on f BNFCC } h one ample h ind rameters rs
( live / co - / contravariant / fixed ) . We do not show demotion nd ng solation ion as java.lang.StringIndexOutOfBoundsException: Index 90 out of bounds for length 90
examples for composition use operations oo
\ : l l1 l3 o1 2 ontra1 a2 ntra3 tra4 circ
subsection \ < open > Composition in a live position \ < >
type_synonym
( ' l1 , ' l2 , ' l3 , ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 ontra1 circ contra1 ) ( contra2 ' \ < circ > contra2 ) ( contra3 ' < > ) a4 contra4 ) "
' 1 ' , contra1 , ' tra2 , 1 ) ,
' l1 , ' l3 , ' co1 , ' co3 , co4 ontra1 contra3 contra4 ' f2 "
text \ < open > The type ntra3 < > ' contra3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra3 ' < > contra3 Rightarrow > bool ) \ < Rightarrow >
definition " rel_FGl L1 L2 L3 Co1 Co2 Co3 Co4 Contra1 l2 Rightarrow ' l2 ' \ < Rightarrow > bool ) ( L2 ' : ' < > ' ' \ Rightarrow bool )
rel_F ( rel_G L1 L2 Co1 o2 Contra1 L1 L3 Co1 o3 Contra1 ontra3 3 ontra4
definition map_FGl 1 2 l3 co1 2 o3 co4 contra2 contra3
map_F map_G rel_FGl L1 L2 3 Co1 o3 ntra1 ontra2 a2 ntra3 tra4 =
lemma rel_FGl_mono :
" \ < lbrakk > L1 \ < le > L1 ' ; L2 \ < le > L2 ' ; L3 \ < le > ' \ le Co1 ' ; Co2 \ < le > Co2 ' ; Co3 \ < le ' 4 > Co4 ' ;
Contra1 ' \ < le > Contra1 ; Contra2 ' \ < le > Contra2 ; and tra1 Rightarrow ' contra1 ' \ < Rightarrow bool ntra1 : tra1 Rightarrow ' contra1 ' ' \ < Rightarrow l "
rel_FGl L1 L2 L3 1 Co2 o4 ontra1 ontra2 tra2 ontra3 ontra4 \ le >
rel_FGl L1 ' L2 ' L3 ' Co1 ' Co2 ' Co3 ' Co4 ' Contra1 ' Contra2 ' Contra3 ' ra4 '
ule e order_refl
lemma rel_FGl_neg_distr_imp
apply ( rule rel_G_mono )
apply ( assumption ) +
done
lemma rel_FGl_eq : " rel_FGl and Contra2 \ Rightarrow contra2 ' \ < Rightarrow > bool " and Contra2 ' : : " ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool "
unfolding rel_FGl_def by ( simp add : rel_F_eq rel_G_eq )
lemma rel_FGl_conversep : y e rel_FGl_pos_distr_imp el_F_pos_distr_cond_eq _ _ istr_cond_eq
Gl \ > \ inverse L2 \ < inverse > \ < inverse > L3 \ < inverse > \ < inverse > Co1 \ < inverse > \ < inverse > Co2 \ < verse se Co3 \ < inverse > \ < inverse > Co4 \ < inverse > \ < inverse ontra1 \ < inverse > \ < inverse > Contra2 \ < inverse > \ < inverse > Contra3 \ < inverse > \ < nverse ontra4 \ < > < inverse > =
( rel_FGl L1 L2 L3 Co1 Co2 Co3 Co4 Contra1 Contra2 Contra3 Contra4 ) \ < inverse > \ < inverse > "
unfolding rel_FGl_def by ( simp add : rel_F_conversep rel_G_conversep )
lemma bd_FGl : : co1 2 , a1 2 ' a4 , FGlbd "
unfolding map_FGl_def by ( simp add : map_F_id0 map_G_id0 )
lemma map_FGl_comp : " map_FGl l1 l2 l3 co1 co2 co3 co4 apply java.lang.StringIndexOutOfBoundsException: Index 41 out of bounds for length 41
map_FGl le _ finite
map_FGl ( l1 \ < circ > apply ( _ java.lang.StringIndexOutOfBoundsException: Index 30 out of bounds for length 30
( contra1
unfolding map_FGl_def by ( simp assumes < > z . < n > set1_FGl x \ < Longrightarrow > l1 z = 1 and And z . z \ < in > set2_FGl x \ < Longrightarrow > l2 z = l2 ' z
lemma map_FGl_parametric :
" rel_fun ( rel_fun L1 L1 ' ) ( rel_fun ( rel_fun L2 L2 ' ) ( rel_fun type_synonym
( rel_fun ( rel_fun Co1 Co1 ' ) ( rel_fun ( rel_fun Co2 Co2 ' )
( rel_fun ( rel_fun Co3 Co3 3 ' rel_fun ( el_fun _ fun o4 o4 4 )
( rel_fun ( rel_fun tra1 1 Contra1 rel_fun _ fun n ( el_fun fun n ontra2 ntra2 a2 ' Contra2 java.lang.StringIndexOutOfBoundsException: Index 73 out of bounds for length 73
rel_fun un ontra3 ontra3 ( el_fun n ( _ tra4 ra4
( rel_fun ( rel_FGl L1 L2 L3 Co1 Co2 Co3 Co4 Contra1 Contra2 Contra3 Contra4
( rel_FGl L1 ' L2 ' L3 ' Co1 ' Co2 ' Co3 ' Co4 ' ( a1 circ contra1 ) ( contra2 ' \ < circ > contra2 ) ( contra3 ' \ < circ > ntra3 ( ' circ contra4 ) "
map_FGl map_FGl "
unfolding rel_FGl_def map_FGl_def
apply ( intro rel_funI )
apply ( elim map_F_rel_cong ap_G_rel_cong
apply ( le l_funE E java.lang.StringIndexOutOfBoundsException: Index 42 out of bounds for length 42
done
definition s_distr_cond ' Rightarrow ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > 1 < Rightarrow > ' co1 ' ' \ < Rightarrow > bool \ < java.lang.StringIndexOutOfBoundsException: Index 159 out of bounds for length 159
\ > co2 < > bool \ < ightarrow > ( co2 < Rightarrow > ' co2 ' Rightarrow bool ) \ Rightarrow java.lang.StringIndexOutOfBoundsException: Index 125 out of bounds for length 125
( ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co4 \ < Rightarrow > ' co4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co4 ' \ < Rightarrow > ' co4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra1 \ < Rightarrow Co4 4 5 O o5 o6
( < > L1 ' o3 ' ' 1 ontra2 ' ontra4 java.lang.StringIndexOutOfBoundsException: Index 86 out of bounds for length 86
( ' contra3 \ < Rightarrow > ' ontra3 tra3 ra3 < Rightarrow > bool ) Rightarrow ( ' contra3 ' \ < Rightarrow > ' contra3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
bool Rightarrow ( ' contra4 ' \ < Rightarrow > ' contra4 ' ' < > bool ol Rightarrow
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times > ' l3 \ < times > ' l3 ' \ < times > ' l3 ' ' \ < times > ' f1 \ < times > ' f2 ) itself \ < Rightarrow > bool "
java.lang.StringIndexOutOfBoundsException: Index 7 out of bounds for length 7
" rel_FGl_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' _ \ < longleftrightarrow >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 type_synonym ' ' , , 6 ,
( L2 : : 2 < Rightarrow > ' ' \ Rightarrow > bool ) ' contra4 < ' contra4 > bool \ Rightarrow ( ' Rightarrow ' ontra4 ' < > bool ) \ Rightarrow
( L3 : : ' l3 \ < Rightarrow
( rel_FGl L1 L2 L3 Co1 Co2 Co3 Co4 Contra1 Contra2 Contra3 Contra4 : :
( _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , _ unfolding f _ ef ymmetric _ mmetric _
rel_FGl L1 ' L2 ' L3 ' Co1 ' Co2 '
rel_FGl ( L1 OO L1 ' ) ( L2 OO L2 ' ) ( L3 OO L3 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' ) Co3 Co3 o4 )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ( Contra3 OO Contra3 ' ) ( Contra4 OO Contra4 ' ) ) "
definition rel_FGl_neg_distr_cond : : " lemma tra_conversep
( ' co2 \ < Rightarrow o2 \ Rightarrow bool ) \ < Rightarrow > ( ' co2 ' Rightarrow ' co2 ' ' \ < Rightarrow > bool ) >
( > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow co3 > ' co3 ' ' \ < Rightarrow >
( rel_fun Contra5
Rightarrow > ' contra1 ' \ < Rightarrow > bool < > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' ontra3 < ightarrow ' contra3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra3 ' \ < Rightarrow > ' contra3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra4 \ < Rightarrow > ' contra4 ' \ < Rightarrow > bool ) \ > ( ' contra4 ' \ < Rightarrow > ' contra4 ' ' < bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' java.lang.StringIndexOutOfBoundsException: Index 51 out of bounds for length 51
where
" rel_FGl_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 3 ' Co4 Co4
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ( Rightarrow > ' co5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co5 ' \ < ightarrow 5 < > ool Rightarrow
\ L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > ool L1 ' : < Rightarrow > ' \ Rightarrow bool )
( L2 : ' l2 \ < Rightarrow > ' l2 ' \ < > bool ) ( L2 ' : ' Rightarrow ' ' \ < > bool )
: ' < > ' 3 < ightarrow bool ) ( L3 ' : : ' l3 ' \ < Rightarrow > ' l3 ' ' \ < Rightarrow > bool ) .
rel_FGl ( L1 OO L1 ' ) ( L2 OO L2 ' ) ( L3 OO L3 ' )
( Co1 OO ) Co2 2 Co3 Co4 o4
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ( Contra3 OO Contra3 ' ) ( Contra4 )
( rel_FGl L1 L2 L3 Co1 Co2 Co3 Co4 Contra1 Contra2 Contra3 Contra4 shows a_pos_distr_cond o1 Co4
( _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , ' f1 , ' f2 )
rel_FGl L1 ' L2 ' L3 ' Co1 ' Co2 ' Co3 ' w < > bool " and Contra1 ' : : contra1 < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool "
text \ < open > Sufficient conditions for subdistributivity over relation composition . \ < close >
lemma rel_FGl_pos_distr_imp :
fixes Co1 : : " ' co1 1 )
rule G_pos_distr
Contra1 < > ' contra1 ' \ < Rightarrow > bool " and Contra1 ' : : " ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool "
and imp G_eq java.lang.StringIndexOutOfBoundsException: Index 29 out of bounds for length 29
tytok_F : : " ( rel_FGcontra_neg_distr_cond_eq
( ' l1 ' , 2 o1 ' ' , ra2 , 1 G java.lang.StringIndexOutOfBoundsException: Index 70 out of bounds for length 70
( ' l1 ' ' , ' l2 ' ' , ' co1 ' ' , apply ( neg_distr_cond_eq distr_cond_eq nd_eq 3 tra4 java.lang.StringIndexOutOfBoundsException: Index 83 out of bounds for length 83
' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l3 \ < times > ' l3 ' \ ra1 ontra5 ' java.lang.StringIndexOutOfBoundsException: Index 33 out of bounds for length 33
set1_F_map fied
and tytok_FGl : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > lemma bd_FGcontra_card_order : " der a "
' f1 \ < times > ' shows " _ Gcontra apl_FGcontra 1
assumes " rel_F_pos_distr_cond Co1 Co1 ' Co3 Co3 ' Co4 Co4 '
Contra1 Contra1 ' Contra3 " ontra
and " rel_G_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 ' Contra2 Contra2 ' tytok_G "
shows " rel_FGl_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_FGl "
unfolding rel_FGl_pos_distr_cond_def rel_FGl_def
apply ( intro allI )
apply ( rule order_trans )
apply ( rule rel_F_pos_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( rule rel_G_pos_distr )
apply ( ) )
apply ( rule order_refl ) +
done
lemma rel_FGl_neg_distr_imp :
fixes lemma map_FGf_parametric :
and Co2 : ' o2 < > ' o2 Rightarrow bool " and Co2 ' : ' co2 ' \ Rightarrow ' co2 ' \ Rightarrow "
and Contra1 : : " ' contra1 \ < Rightarrow > ' contra1 ' \ < java.lang.StringIndexOutOfBoundsException: Index 6 out of bounds for length 6
and Contra2 : : " ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ol and a2 : contra2 < Rightarrow > ntra2 < ightarrow arrow java.lang.StringIndexOutOfBoundsException: Index 144 out of bounds for length 144
tok_F " l1 l2 , co1 1 ' ra1 1 , ' contra2 , ' f1 ) G \ < times >
( ' l1 ' , ' l2 ' , ' co1 ' , ' co2 ' , ' contra1 ' , ' contra2 ' , ' f1 ) G \ < times >
( ' l1 ' ' , ' l2 ' ' , ' co1 ' ' , ' co2 ' ' , ' contra1 ' ' , ' contra2 ' ' , ' f1 ) G \ < times >
' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > f1 times ' f2 \ < times > ' f3 \ < times > ' f4 \ < > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself \ < Rightarrow > bool " where
and tytok_G : 1 < > ' l1 times ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times ' 2 < > f1 self "
and tytok_FGl : : " ( ' l1 \ < times > apply e rder_trans e assms 2
' f1 \ < times >
assumes " rel_F_neg_distr_cond Co1 Co1 ' Co3 Co3 ' Co4 Co4 '
ntra3 ntra4 a4 tok_F
and " rel_G_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 a1 ntra2 a2 tytok_G "
shows " rel_FGl_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_FGl "
olding _ _ g_distr_cond_def ond_def el_FGl_def
apply ( intro allI )
apply ( rule order_trans [ rotated ] )
apply ( rule rel_F_neg_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( rule rel_G_neg_distr )
ly ms
apply ( rule order_refl ) +
e
lemma rel_FGl_pos_distr_cond_eq :
fixes tytok : : " ( ' l1
< > ' ) f "
shows " el_FGl_pos_distr_cond = ) ( ) ( = ) ( ) =
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
by ' f1 2 ' , l ) "
lemma rel_FGl_neg_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times > ' l3 \ < times > ' l3 ' \ < times > ' l3 ' ' \ < times >
' f1 \ < times > ' f2 ) itself "
shows " rel_FGl_neg_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = )
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
by ( rule rel_FGl_neg_distr_imp rel_F_neg_distr_cond_eq rel_G_neg_distr_cond_eq ) +
definition " rell_FGl L1 L2 L3 = rel_FGl L1 L2 L3 ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) "
definition " mapl_FGl l1 l2 l3 = map_FGl l1 l2 l3 id id id id id id id id "
type_synonym ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGlbd =
" ( ' co1 , ' co3 , ' co4 , ' contra1 , ' contra3 , ' contra4 , ' f2 ) Fbd \ < times >
( ' co1 , ' co2 , ' contra1 , ' contra2 , ' f1 ) Gbd +
( ' co1 , ' co3 , ' co4 , ' contra1 , ' and " rel_G_neg_distr_cond Co1 Co1 ' Contra2 tytok_G "
definition set1_FGl : : " ( ' l1 , ' l2 , ' l3 , ' co1 , ' co2 , ' co3 , ' co4 ,
, ' contra2 , contra3 , ' f1 , ' ) \ < Rightarrow > ' l1 set java.lang.StringIndexOutOfBoundsException: Index 86 out of bounds for length 86
" set1_FGl x = ( \ < Union > y \ < in > set1_F x . set1_G y ) \ < union > set2_F x "
definition set2_FGl : : " ( ' l1 , ' l2 , ' l3 , ' co1 , ' co2 , ' co3 , ' co4 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGl \ < Rightarrow > ' l2 set " where
" set2_FGl x = ( \ < Union > y \ < in > set1_F x . set2_G y ) "
definition set3_FGl : : " ( ' l1 , ' l2 , ' l3 , ' co1 , ' co2 , ' co3 , ' co4 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGl \ < Rightarrow > ' l3 set " where
" set3_FGl x = set3_F x "
definition
bd_FGl : : " ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGlbd rel "
where " bd_FGl = bd_F * c bd_G + c bd_F "
lemma set1_FGl_map : " set1_FGl \ < circ > mapl_FGl l1 l2 l3 = image l1 \ < circ > set1_FGl "
by ( simp add : fun_eq_iff set1_FGl_def mapl_FGl_def map_FGl_def
mapl_F_def [ symmetric ] mapl_G_def [ symmetric ]
set1_F_map [ THEN fun_cong , simplified ] set2_F_map [ THEN fun_cong , simplified ]
set1_G_map [ THEN fun_cong , simplified ]
image_Un image_UN )
lemma set2_FGl_map : " set2_FGl \ < circ > mapl_FGl l1 l2 l3 = image l2 \ < circ > set2_FGl "
by ( simp add : fun_eq_iff set2_FGl_def mapl_FGl_def map_FGl_def
mapl_F_def [ symmetric ] mapl_G_def [ symmetric ]
set1_F_map [ THEN fun_cong , simplified ] set2_G_map [ THEN fun_cong , simplified ] image_UN )
lemma set3_FGl_map : " set3_FGl \ < circ > mapl_FGl l1 l2 l3 = image l3 \ < circ > set3_FGl "
by ( simp add : fun_eq_iff set3_FGl_def mapl_FGl_def map_FGl_def
mapl_F_def [ symmetric ] mapl_G_def [ symmetric ] set3_F_map [ THEN fun_cong , simplified ] )
lemma bd_FGl_card_order : " card_order bd_FGl "
unfolding bd_FGl_def using bd_F_card_order type_synonym ' , ' , ' , ' , contra1 contra2 , ' ontra3 contra4 ' f1 ' f2 FGlbd =
by ( intro card_order_csum card_order_cprod )
lemma bd_FGl_cinfinite : " cinfinite bd_FGl "
unfolding bd_FGl_def using bd_F_cinfinite bd_G_cinfinite
by ( intro cinfinite_csum disjI2 )
lemma
fixes x : : " ( _ , _ , _ , ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGl "
shows set1_FGl_bound : " card_of ( set1_FGl x ) < o
( bd_FGl : : ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGlbd rel ) "
and set2_FGl_bound : " card_of ( set2_FGl x ) < o
bd_FGl : ( co1 co2 , ' co3 , co4 ' contra1 , ' contra2 , ' , contra4 ' f1 ' f2 FGlbd rel ) "
and set3_FGl_bound : " card_of ( set3_FGl x ) < o
( bd_FGl : : ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGlbd rel ) "
unfolding set1_FGl_def set2_FGl_def set3_FGl_def bd_FGl_def
apply ( simp )
apply ( rule ordLeq_ordLess_trans )
apply ( rule Un_csum )
apply ( csum_mono_strict )
apply ( rule card_of_Card_order ) +
apply ( rule Cinfinite_cprod2 )
apply ( rule Cinfinite_Cnotzero )
apply ( rule bd_F_Cinfinite )
apply definition
apply ( rule bd_F_Cinfinite )
apply ( rule comp_single_set_bd_strict [ where fset = set1_G and gset = set1_F , rotated ] )
apply ( rule bd_G_regularCard )
apply ( rule bd_F_Cinfinite )
apply ( rule bd_F_regularCard )
apply ( rule set1_G_bound )
apply ( rule set1_F_bound )
apply ( rule bd_G_Cinfinite )
apply ( rule set2_F_bound )
apply ( rule ordLess_ordLeq_trans )
apply ( rule comp_single_set_bd_strict [ where fset = set2_G and gset = set1_F , rotated ] )
apply ( rule bd_G_regularCard )
apply ( rule bd_F_Cinfinite )
apply ( rule bd_F_regularCard )
apply ( rule set2_G_bound )
apply ( rule set1_F_bound )
apply ( rule bd_G_Cinfinite )
apply ( rule ordLeq_csum1 )
apply ( rule Card_order_cprod )
apply ( rule ordLess_ordLeq_trans )
apply ( rule set3_F_bound )
apply ( rule ordLeq_csum2 )
apply ( rule conjunct2 [ OF bd_F_Cinfinite ] )
done
lemma mapl_FGl_cong :
assumes " \ < And > z . z \ < in > set1_FGl x \ < Longrightarrow > l1 z = l1 ' z " and " \ < And > z . z \ < in > set2_FGl x \ < Longrightarrow > l2 z = l2 ' z "
and " \ < And > z . z \ < in > set3_FGl x \ < Longrightarrow > l3 z = l3 ' z "
unfolding mapl_FGl_def map_FGl_def mapl_G_def [ symmetric ] mapl_F_def [ symmetric ]
by ( auto 0 5 intro : mapl_F_cong mapl_G_cong assms simp add : set1_FGl_def set2_FGl_def set3_FGl_def )
lemma rell_FGl_mono_strong :
assumes " rell_FGl L1 L2 L3 x y "
and " \ < And > a b . a \ < in > set1_FGl x \ < Longrightarrow > b \ < in >
and " \ < And > a b . a \ < in > set2_FGl x \ < Longrightarrow > b \ < in > set2_FGl y \ < Longrightarrow > L2 a b \ < Longrightarrow > L2 ' a b "
and " \ < And > a b . a \ < in > set3_FGl x \ < Longrightarrow > b \ < in > set3_FGl y \ < Longrightarrow > L3 a b \ < Longrightarrow > L3 ' a b "
shows " rell_FGl L1 ' L2 ' L3 ' x y "
using assms ( 1 ) unfolding rell_FGl_def rel_FGl_def rell_G_def [ symmetric ] rell_F_def [ symmetric ]
by ( auto 0 5 intro : rell_F_mono_strong rell_G_mono_strong assms ( 2 - 4 )
simp add : set1_FGl_def set2_FGl_def set3_FGl_def )
subsection \ < open > Composition in a covariant position \ < close >
type_synonym
( ' l1 , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGco =
" ( ' l1 , ' co1 , ' co5 , ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' apply )
' contra1 , ' contra3 , ' contra4 , ' f2 ) F "
text \ < open > The type variables @ { typ ' co1 } , @ { typ ' co3 } and @ { typ ' contra1 } have each been merged . \ < close >
definition " rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 =
rel_F L1 Co1 Co5 ( rel_G Co1 Co2 Co3 Co4 Contra1 Contra2 ) Co3 Co6 Contra1 Contra3 Contra4 "
definition " map_FGco l1 rule ordLeq_csum2
map_F l1 co1 co5 ( map_G co1 co2 co3 co4 contra1 contra2 ) co3 co6 contra1 contra3 contra4 "
lemma rel_FGco_mono :
" \ < lbrakk > L1 \ < le > L1 ' ; Co1 \ < le > Co1 ' ; Co2 \ < le > Co2 ' ; Co3 \ < le > Co3 ' ; Co4 \ < le > Co4 ' ; Co5 \ < le > Co5 ' ; Co6 \ < le > Co6 ' ;
Contra1 ' \ < le > Contra1 ; Contra2 ' \ < le > Contra2 ; Contra3 ' \ < le > Contra3 ; Contra4 ' \ < le > Contra4 \ < rbrakk > \ < Longrightarrow >
rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 \ < le >
rel_FGco L1 ' Co1 ' Co2 '
unfolding rel_FGco_def
apply ( rule rel_F_mono )
apply ( assumption ) +
apply ( rule rel_G_mono )
apply ( assumption ) +
done
lemma rel_FGco_eq : " rel_FGco ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) = ( = ) "
unfolding rel_FGco_def by ( simp add : rel_F_eq rel_G_eq )
lemma rel_FGco_conversep :
" rel_FGco L1 \ < inverse > \ < inverse > Co1 \ < inverse > \ < inverse > Co2 \ < inverse > \ < inverse > Co3 \ < inverse > \ < inverse > Co4 \ < inverse > \ < inverse > Co5 \ < inverse > \ < inverse > Co6 \ < inverse > \ < inverse > Contra1 \ < inverse > \ < inverse > Contra2 \ < inverse > \ < inverse > Contra3 \ < inverse > \ < inverse > Contra4 \ < inverse > \ < inverse > =
( rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 ) \ < inverse > \ < inverse > "
unfolding rel_FGco_def by ( simp add : rel_F_conversep rel_G_conversep )
lemma map_FGco_id0 : " map_FGco id id id id id id id id id id id = id "
unfolding map_FGco_def by ( simp add : map_F_id0 map_G_id0 )
lemma map_FGco_comp : " map_FGco l1 co1 co2 co3 co4 co5 co6 contra1 contra2 contra3 contra4 \ < circ >
map_FGco l1 ' co1 ' co2 ' co3 ' co4 ' co5 ' co6 ' contra1 ' contra2 ' contra3 ' contra4 ' =
map_FGco ( l1 \ < circ > l1 ' ) ( co1 \ < circ > co1 ' ) ( co2 \ < circ > co2 ' ) ( co3 \ < circ > co3 ' ) ( co4 \ < circ > co4 ' ) ( co5 \ < circ > co5 ' ) ( co6 \ < circ > co6 ' )
( contra1 ' \ < circ > contra1 ) ( contra2 ' \ < circ > contra2 ) ( contra3 ' \ < circ > contra3 ) ( contra4 ' \ < circ > contra4 ) "
unfolding map_FGco_def by ( simp add : map_F_comp map_G_comp )
lemma map_FGco_parametric :
" rel_fun ( rel_fun L1 L1 ' ) ( rel_fun ( rel_fun Co1 Co1 ' ) ( rel_fun ( rel_fun Co2 Co2 ' )
( rel_fun ( rel_fun Co3 Co3 ' ) ( rel_fun ( rel_fun Co4 Co4 ' )
( rel_fun ( rel_fun Co5 Co5 ' ) ( rel_fun ( rel_fun Co6 Co6 ' )
( rel_fun ( rel_fun Contra1 ' Contra1 ) ( rel_fun ( rel_fun Contra2 ' Contra2 )
( rel_fun ( rel_fun Contra3 ' Contra3 ) ( rel_fun ( rel_fun Contra4 ' Contra4 )
( rel_fun ( rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 )
( rel_FGco L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Co6 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' ) ) ) ) ) ) ) ) ) ) ) )
map_FGco map_FGco "
unfolding rel_FGco_def map_FGco_def
apply ( intro rel_funI )
apply ( elim map_F_rel_cong map_G_rel_cong )
apply ( erule ( 2 ) rel_funE ) +
done
definition rel_FGco_pos_distr_cond : : " ( ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > done
( ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co4 \ < Rightarrow > ' co4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co4 ' \ < Rightarrow > ' co4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co6 \ < Rightarrow > ' co6 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co6 ' \ < Rightarrow > ' co6 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra3 \ < Rightarrow > ' contra3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra3 ' \ < Rightarrow > ' contra3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra4 \ < Rightarrow > ' contra4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra4 ' \ < Rightarrow > ' contra4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself \ < Rightarrow > bool " where
" rel_FGco_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 ' Co6 Co6 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' _ \ < longleftrightarrow >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > bool ) ( L1 ' : : ' l1 ' \ < Rightarrow > ' l1 ' ' \ < Rightarrow > bool ) .
( rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 : :
( _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , ' f1 , ' f2 ) FGco \ < Rightarrow > _ ) OO
rel_FGco L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Co6 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' \ < le >
rel_FGco ( L1 OO L1 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' ) ( Co3 OO Co3 ' )
( Co4 OO Co4 ' ) ( Co5 OO Co5 ' ) ( Co6 OO Co6 ' )
( Contra1 _ Gco "
definition rel_FGco_neg_distr_cond : : " ( ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
rel_FGco_pos_distr_cond : ( co1 < > ' co1 ' \ < Rightarrow > bool ) \ < > ( co1 \ Rightarrow > co1 ' ' \ Rightarrow bool ) < >
( ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co4 \ < Rightarrow > ' co4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co4 ' \ < Rightarrow > ' co4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co6 \ < Rightarrow > ' co6 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co6 ' \ < Rightarrow > ' co6 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra3 \ < Rightarrow > ' contra3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra3 ' \ < Rightarrow > ' contra3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra4 \ < Rightarrow > ' contra4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra4 ' \ < Rightarrow > ' contra4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself \ < Rightarrow > bool " where
" rel_FGco_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 ' Co6 Co6 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' _ \ < longleftrightarrow >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > bool ) ( L1 ' : : ' l1 ' \ < Rightarrow > ' l1 ' ' \ < Rightarrow > bool ) .
' Co3 OO Co3 )
( Co4 OO Co4 ' ) ( Co5 OO Co5 ' ) ( Co6 OO Co6 ' )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ( Contra3 OO Contra3 ' ) ( Contra4 OO Contra4 ' ) \ < le >
( rel_FGco L1 Co1 Co2 Co3 Co4 Co5 Co6 Contra1 Contra2 Contra3 Contra4 : :
( _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , ' f1 , ' f2 ) FGco \ < Rightarrow > _ ) OO
rel_FGco L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Co6 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' ) "
text \ < open > Sufficient conditions for subdistributivity over relation composition . \ < close >
lemma rel_FGco_pos_distr_imp :
fixes Co1 : : " ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool " and Co1 ' : : " ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool "
and Co2 : : " ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool " and Co2 ' : : " ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool "
and Co5 : : " ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool " and Co5 ' : : " ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool "
and tytok_F : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' co1 \ < times > ' co1 ' \ < times > ' co1 ' ' \ < times > ' co5 \ < times > ' co5 ' \ < times > ' co5 ' ' \ < times >
' f2 ) itself "
and tytok_G : : " ( ' co1 \ < times > ' co1 ' \ < times > ' co1 ' ' \ < times > ' co2 \ < times > ' co2 ' \ < times > ' co2 ' ' \ < times > ' f1 ) itself "
and tytok_FGco : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
assumes " rel_F_pos_distr_cond
( rel_G Co1 Co2 Co3 Co4 Contra1 Contra2 : : ( _ , _ , _ , _ , _ , _ , ' f1 ) G \ < Rightarrow > _ )
( rel_G Co1 ' Co2 ' Co3 ' Co4 ' Contra1 ' Contra2 ' ) Co3 Co3 ' Co6 Co6 '
Contra1 Contra1 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_F "
and " rel_G_pos_distr_cond Co3 Co3 ' Co4 Co4 ' Contra1 Contra1 ' Contra2 Contra2 ' tytok_G "
shows " rel_FGco_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 ' Co6 Co6 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_FGco "
unfolding rel_FGco_pos_distr_cond_def rel_FGco_def
apply ( intro allI )
apply ( rule order_trans )
apply ( rule rel_F_pos_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( rule order_refl ) +
apply ( rule rel_G_pos_distr )
apply ( rule assms ( 2 ) )
apply ( rule order_refl ) +
done
lemma rel_FGco_neg_distr_imp :
fixes Co1 : : " ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool " and Co1 ' : : " ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool "
and Co2 : : " ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool " and Co2 ' : : " ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool "
and Co5 : : " ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool " and Co5 ' : : " ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool "
and > Sufficient conditions for subdistributivity relation composition \ close >
and tytok_G : : " ( ' co1 \ < times > ' co1 ' \ < times > ' co1 ' ' \ < times > ' co2 \ < times > ' co2 ' \ < times > ' co2 ' ' \ < times > ' f1 ) itself "
and tytok_FGco : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
assumes " rel_F_neg_distr_cond
( rel_G Co1 Co2 Co3 Co4 Contra1 Contra2 : : ( _ , _ , _ , _ , _ , _ , ' f1 ) G \ < Rightarrow > _ )
( rel_G Co1 ' Co2 ' Co3 ' Co4 ' Contra1 ' Contra2 ' ) Co3 Co3 ' Co6 Co6 '
Contra1 Contra1 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_F "
and " rel_G_neg_distr_cond Co3 Co3 ' Co4 Co4 ' Contra1 Contra1 ' Contra2 Contra2 ' tytok_G "
shows " rel_FGco_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 ' Co6 Co6 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' tytok_FGco "
unfolding rel_FGco_neg_distr_cond_def rel_FGco_def
apply ( intro allI )
apply ( rule order_trans [ rotated ] )
apply ( rule rel_F_neg_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( rule order_refl ) +
apply ( rule rel_G_neg_distr )
apply ( rule assms ( 2 ) )
apply ( rule order_refl ) +
done
lemma rel_FGco_pos_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
shows " rel_FGco_pos_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = )
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
apply ( rule rel_FGco_pos_distr_imp )
apply ( simp add : rel_G_eq )
apply ( rule rel_F_pos_distr_cond_eq rel_G_pos_distr_cond_eq ) +
done
lemma rel_FGco_neg_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
shows " rel_FGco_neg_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = )
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( apply ( ule rel_F_pos_distr )
apply ( rule rel_FGco_neg_distr_imp )
apply ( simp add : rel_G_eq )
apply ( rule rel_F_neg_distr_cond_eq rel_G_neg_distr_cond_eq ) +
done
definition " rell_FGco L1 = rel_FGco L1 ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) "
definition " mapl_FGco l1 = map_FGco l1 id id id id id id id id id id "
type_synonym ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGcobd =
" ( ( ' co1 , ' co2 , ' co3 , ' co4 , ' contra1 , ' contra2 , ' f1 ) G ,
' co3 , ' co6 , ' contra1 , ' contra3 , ' contra4 , ' f2 ) Fbd "
definition set1_FGco : : " ( ' l1 , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGco \ < Rightarrow > ' l1 set " where
" set1_FGco x = set1_F x "
definition bd_FGco : : " ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGcobd rel " where
" bd_FGco = bd_F "
lemma set1_FGco_map : " set1_FGco \ < circ > mapl_FGco l1 = image l1 \ < circ > set1_FGco "
by ( simp add : fun_eq_iff set1_FGco_def mapl_FGco_def map_FGco_def
mapl_F_def [ symmetric ] mapl_G_def [ symmetric ] mapl_G_id0
set1_F_map [ THEN fun_cong , simplified ] )
lemma bd_FGco_card_order : " card_order bd_FGco "
unfolding rel_G Co1 Co2 ' Co3 Co4 ' ' ' Co6
lemma bd_FGco_cinfinite : " cinfinite bd_FGco "
unfolding bd_FGco_def using bd_F_cinfinite .
lemma set1_FGco_bound :
fixes x : : " ( _ , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGco "
shows " card_of ( set1_FGco x ) < o ( bd_FGco : : ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' co6 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' f1 , ' f2 ) FGcobd rel ) "
unfolding set1_FGco_def bd_FGco_def using set1_F_bound .
lemma mapl_FGco_cong :
assumes " \ < And > z . z \ < in > set1_FGco x \ < Longrightarrow > l1 z = l1 ' z "
shows " mapl_FGco l1 x = mapl_FGco l1 '
unfolding mapl_FGco_def map_FGco_def mapl_G_def [ symmetric ] mapl_F_def [ symmetric ] mapl_G_id0
by ( auto 0 3 intro : mapl_F_cong assms simp add : set1_FGco_def )
lemma rell_FGco_mono_strong :
assumes " rell_FGco L1 x y "
and " \ < And > a b . a \ < in > set1_FGco x \ < Longrightarrow > b \ < in > set1_FGco y \ < Longrightarrow > L1 a b \ < Longrightarrow > L1 ' a b "
shows " rell_FGco L1 ' x y "
using assms ( 1 ) unfolding rell_FGco_def rel_FGco_def rel_G_eq rell_F_def [ symmetric ]
by ( auto 0 3 intro : rell_F_mono_strong assms ( 2 ) simp add : set1_FGco_def )
subsection \ < open > Composition in a contravariant position \ < close >
type_synonym
( ' l1 , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' contra1 ,
' contra2 , ' contra3 , ' contra4 , ' contra5 , ' f1 , ' f2 ) FGcontra =
" ( ' l1 , ' co1 , ' co3 , ' co1 , ' co4 , ' co5 , ( ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' co1 , ' co2 , ' f1 ) G ,
' contra1 , ' contra5 , ' f2 ) F "
text \ < open > The type variables @ { typ ' co1 } and @ { typ ' contra1 } have each been merged . \ < close >
definition " rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 =
rel_F L1 Co1 Co3 Co1 type_synonym ( ' co1 , co2 co3 , ' o4 ' , ' ,
definition " map_FGcontra l1 co1 co2 co3 co4 co5 contra1 contra2 contra3 contra4 contra5 =
map_F l1 co1 co3 co1 co4 co5 ( map_G contra1 contra2 contra3 contra4 co1 co2 ) contra1 contra5 "
lemma rel_FGcontra_mono :
" \ < lbrakk > L1 \ < le > L1 ' ; Co1 \ < le > Co1 ' ; Co2 \ < le > Co2 ' ; Co3 \ < le > Co3 ' ; Co4 \ < le > Co4 ' ; Co5 \ < le > Co5 ' ;
Contra1 ' \ < le > Contra1 ; Contra2 ' \ < le > Contra2 ; Contra3 ' \ < le > Contra3 ;
Contra4 ' \ < le > Contra4 ; Contra5 ' \ < le > Contra5 \ < rbrakk > \ < Longrightarrow >
rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 \ < le >
rel_FGcontra L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' Contra5 ' "
unfolding rel_FGcontra_def
apply ( rule rel_F_mono )
apply ( assumption ) +
apply ( rule rel_G_mono )
apply ( assumption ) +
done
lemma rel_FGcontra_eq : " rel_FGcontra ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) = ( = ) "
unfolding rel_FGcontra_def by ( simp add : rel_F_eq rel_G_eq )
lemma rel_FGcontra_conversep :
" rel_FGcontra L1 \ < inverse > \ < inverse > Co1 \ < inverse > \ < inverse > Co2 \ < inverse > \ < inverse > Co3 \ < inverse > \ < inverse > Co4 \ < inverse > \ < inverse > Co5 \ < inverse > \ < inverse > Contra1 \ < inverse > \ < inverse > Contra2 \ < inverse > \ < inverse > Contra3 \ < inverse > \ < inverse > Contra4 \ < inverse > \ < inverse > Contra5 \ < inverse > \ < inverse > =
( rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 ) \ < inverse > \ < inverse > "
unfolding rel_FGcontra_def by ( simp add : rel_F_conversep rel_G_conversep )
lemma map_FGcontra_id0 : " map_FGcontra id id id id id id id id id id id = id "
unfolding map_FGcontra_def by ( simp add : map_F_id0 map_G_id0 )
java.lang.StringIndexOutOfBoundsException: Index 126 out of bounds for length 24
" map_FGcontra l1 co1 co2 co3 co4 co5 contra1 contra2 contra3 contra4 contra5 \ < circ >
map_FGcontra l1 ' co1 ' co2 ' co3 ' co4 ' co5 ' contra1 ' contra2 ' contra3 ' contra4 ' contra5 ' =
map_FGcontra ( l1 \ < circ > l1 ' ) ( co1 \ < circ > co1 ' ) ( co2 \ < circ > co2 ' ) ( co3 \ < circ > co3 ' ) ( co4 \ < circ > co4 ' ) ( co5 \ < circ > co5 ' )
( contra1 ' \ < circ > contra1 ) ( contra2 ' \ < circ > contra2 ) ( contra3 ' \ < circ > contra3 )
( contra4 ' \ < circ > contra4 ) ( contra5 ' \ < circ > contra5 ) "
unfolding map_FGcontra_def by ( simp add : map_F_comp map_G_comp )
lemma map_FGcontra_parametric :
" rel_fun ( rel_fun L1 L1 ' ) ( rel_fun ( rel_fun Co1 Co1 ' ) ( rel_fun ( rel_fun Co2 Co2 ' )
( rel_fun ( rel_fun Co3 Co3 ' ) ( rel_fun ( rel_fun Co4 Co4 ' ) ( rel_fun ( rel_fun Co5 Co5 ' )
( rel_fun ( rel_fun Contra1 ' Contra1 ) ( rel_fun ( rel_fun Contra2 ' Contra2 )
( rel_fun ( rel_fun Contra3 ' Contra3 ) ( rel_fun ( rel_fun Contra4 ' Contra4 )
( rel_fun ( rel_fun Contra5 ' Contra5 java.lang.StringIndexOutOfBoundsException: Index 0 out of bounds for length 0
( rel_fun ( rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 )
( rel_FGcontra L1 ' rel_F L1 Co1 Co3 ( Contra1 Contra2 Contra3 Contra4 Co1 Co2 "
map_FGcontra map_FGcontra "
unfolding rel_FGcontra_def map_FGcontra_def
apply ( intro rel_funI )
apply ( elim map_F_rel_cong map_G_rel_cong )
apply ( erule ( 2 ) rel_funE ) +
done
definition rel_FGcontra_pos_distr_cond : : " ( ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co4 \ < Rightarrow > ' co4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co4 ' \ < Rightarrow > ' co4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra3 \ < Rightarrow > java.lang.StringIndexOutOfBoundsException: Index 0 out of bounds for length 0
contra4 \ < Rightarrow ' ' < > ) \ < ightarrow ( contra4 \ < > ' ' < > bool < >
( ' contra5 \ < Rightarrow > ' contra5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra5 ' \ < Rightarrow > ' contra5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself \ < Rightarrow > bool " where
" rel_FGcontra_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' Contra5 Contra5 ' _ \ < longleftrightarrow >
L1 ' ' \ < > ' ' ' \ < Rightarrow bool )
( rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 : :
rel_FGcontra L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' Contra5 ' \ < le >
rel_FGcontra ( L1 OO L1 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' ) ( Co3 OO Co3 ' ) ( Co4 OO Co4 ' ) ( Co5 OO Co5 ' )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ( Contra3 OO Contra3 ' )
( Contra4 OO Contra4 ' ) ( Contra5 OO Contra5 ' ) ) "
definition rel_FGcontra_neg_distr_cond : : " ( ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co4 \ < Rightarrow > ' co4 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co4 ' \ < Rightarrow > ' co4 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co5 \ < Rightarrow > ' co5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co5 ' \ < Rightarrow > ' co5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra3 \ < Rightarrow > ' contra3 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra3 ' \ < Rightarrow > ' contra3 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra5 \ < Rightarrow > ' contra5 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra5 ' \ < Rightarrow > ' contra5 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself \ < Rightarrow > bool " where
" rel_FGcontra_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 '
Contra1 Contra2 Contra3 ' Contra4 ' Contra5 ' < >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > bool ) ( L1 ' : : ' l1 ' \ < Rightarrow > ' l1 ' ' \ < Rightarrow > bool ) .
rel_FGcontra ( L1 OO L1 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' ) ( Co3 OO Co3 ' ) ( Co4 OO Co4 ' ) ( Co5 OO Co5 ' )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ( Contra3 OO Contra3 ' )
( Contra4 OO Contra4 ' ) ( Contra5 OO Contra5 ' ) \ < le >
( rel_FGcontra L1 Co1 Co2 Co3 Co4 Co5 Contra1 Contra2 Contra3 Contra4 Contra5 : :
( _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , _ , ' f1 , ' f2 ) FGcontra \ < Rightarrow > _ ) OO
rel_FGcontra L1 ' Co1 ' Co2 ' Co3 ' Co4 ' Co5 ' Contra1 ' Contra2 ' Contra3 ' Contra4 ' Contra5 ' ) "
text \ < open > Sufficient conditions for subdistributivity over relation composition . \ < close >
lemma rel_FGcontra_pos_distr_imp :
fixes Co1 : : " ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool " and Co1 ' : : " ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool "
and Co3 : : " ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool " and Co3 ' : : " ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool "
and Contra1 : : " ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool " and Contra1 ' : : " ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool "
and Contra2 : : " ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool " and Contra2 ' : : " ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool "
and tytok_F : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' co1 \ < times > ' co1 ' \ < times > ' co1 ' ' \ < times > ' co3 \ < times > ' co3 ' \ < times > ' co3 ' ' \ < times >
' f2 ) itself "
and tytok_G : : " ( ' contra1 \ < times > ' contra1 ' \ < times > ' contra1 ' ' \ < times > ' contra2 \ < times > ' contra2 ' \ < times > ' contra2 ' ' \ < times >
' f1 ) itself "
and tytok_FGcontra : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
assumes " rel_F_pos_distr_cond Co1 Co1 ' Co4 Co4 ' Co5 Co5 '
( rel_G Contra1 Contra2 Contra3 Contra4 Co1 Co2 : : ( _ , _ , _ , _ , _ , _ , ' f1 ) G \ < Rightarrow > _ )
( rel_G Contra1 ' Contra2 ' Contra3 ' Contra4 ' Co1 ' Co2 ' )
Contra1 Contra1 ' Contra5 Contra5 ' tytok_F "
and " rel_G_neg_distr_cond Contra3 Contra3 ' Contra4 Contra4 ' Co1 Co1 ' Co2 Co2 ' tytok_G "
shows " rel_FGcontra_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' Contra5 Contra5 '
tytok_FGcontra "
unfolding rel_FGcontra_pos_distr_cond_def rel_FGcontra_def
apply ( intro allI )
apply ( rule order_trans )
apply ( rule rel_F_pos_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( rule order_refl ) +
apply ( rule rel_G_neg_distr )
apply ( rule assms ( 2 ) )
apply ( rule order_refl ) +
done
lemma rel_FGcontra_neg_distr_imp
fixes Co1 : : " ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool " and Co1 ' : : " ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool "
and Co3 : : " ' co3 \ < Rightarrow > ' co3 ' \ < Rightarrow > bool " and Co3 ' : : " ' co3 ' \ < Rightarrow > ' co3 ' ' \ < Rightarrow > bool "
and Contra1 : : " ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool " and Contra1 ' : : " ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool "
and Contra2 : : " ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool " and Contra2 ' : : " ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool "
and tytok_F : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' co1 \ < times > ' co1 ' \ < times > ' co1 ' ' \ < times > ' co3 \ < times > ' co3 ' \ < times > ' co3 ' ' \ < times >
' f2 ) itself "
and tytok_G : : " ( ' contra1 \ < times > ' contra1 ' \ < times > ' contra1 ' ' \ < times > ' contra2 \ < times > ' contra2 ' \ < times > ' contra2 ' ' \ < times >
' f1 ) itself "
and tytok_FGcontra : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
assumes " rel_F_neg_distr_cond Co1 Co1 ' Co4 Co4 ' Co5 Co5 '
( rel_G Contra1 Contra2 Contra3 Contra4 Co1 Co2 : : ( _ , _ , _ , _ , _ , _ , ' f1 ) G \ < Rightarrow > _ )
( rel_G Contra1 ' Contra2 ' Contra3 ' Contra4 ' Co1 ' Co2 ' )
Contra1 Contra1 ' Contra5 Contra5 ' tytok_F "
and " rel_G_pos_distr_cond Contra3 Contra3 ' Contra4 Contra4 ' Co1 Co1 ' Co2 Co2 ' tytok_G "
shows " rel_FGcontra_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Co3 Co3 ' Co4 Co4 ' Co5 Co5 '
Contra1 Contra1 ' Contra2 Contra2 ' Contra3 Contra3 ' Contra4 Contra4 ' Contra5 Contra5 ' tytok_FGcontra "
unfolding rel_FGcontra_neg_distr_cond_def rel_FGcontra_def
apply ( intro allI )
apply ( rule order_trans [ rotated ] )
apply ( rule rel_F_neg_distr unfolding rel_FGcontra_pos_distr_cond_def
( )
apply ( rule rel_F_mono )
apply ( rule order_refl ) +
apply ( rule rel_G_pos_distr )
apply ( rule assms ( 2 ) )
apply ( rule order_refl ) +
done
lemma rel_FGcontra_pos_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
shows " rel_FGcontra_pos_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = )
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
apply ( rule rel_FGcontra_pos_distr_imp )
apply ( simp add : rel_G_eq )
apply ( rule rel_F_pos_distr_cond_eq rel_G_neg_distr_cond_eq +
done
lemma rel_FGcontra_neg_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' f1 \ < times > ' f2 ) itself "
shows " rel_FGcontra_neg_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = )
( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
apply ( rule rel_FGcontra_neg_distr_imp )
apply ( simp add : rel_G_eq )
apply ( rule rel_F_neg_distr_cond_eq rel_G_pos_distr_cond_eq ) +
done
definition " rell_FGcontra L1 = rel_FGcontra L1 ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) "
definition " mapl_FGcontra l1 = map_FGcontra l1 id id id id id id id id id id "
type_synonym ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 , ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' contra5 ,
' f1 , ' f2 ) FGcontrabd =
" ( ' co1 , ' co4 , ' co5 , ( ' contra1 , ' contra2 , ' contra3 , ' contra4 , ' co1 , ' co2 , ' f1 ) G ,
' contra1 , ' contra5 , ' f2 ) Fbd "
definition set1_FGcontra : : " ( ' l1 , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' contra5 , ' f1 , ' f2 ) FGcontra \ < Rightarrow > ' l1 set " where
" set1_FGcontra x = set1_F x "
definition bd_FGcontra : : " ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' contra5 , ' f1 , ' f2 ) FGcontrabd rel " where
" bd_FGcontra = bd_F "
lemma set1_FGcontra_map : " set1_FGcontra \ < circ > mapl_FGcontra l1 = image l1 \ < circ > set1_FGcontra "
by ( simp add : fun_eq_iff set1_FGcontra_def mapl_FGcontra_def map_FGcontra_def
mapl_F_def [ symmetric ] mapl_G_def [ symmetric ] mapl_G_id0
set1_F_map [ THEN fun_cong , simplified ] )
lemma bd_FGcontra_card_order : " card_order bd_FGcontra "
unfolding bd_FGcontra_def using bd_F_card_order .
lemma bd_FGcontra_cinfinite : " cinfinite bd_FGcontra "
unfolding bd_FGcontra_def using bd_F_cinfinite .
lemma set1_FGcontra_bound :
fixes x : : " ( _ , ' co1 , ' co2 , ' co3 , ' co4 , ' co5 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' contra5 , ' f1 , ' f2 ) FGcontra "
shows " card_of ( set1_FGcontra x ) < o ( bd_FGcontra : : ( ' co1 , ' co2 , ' co3 , ' co4 , ' co5 ,
' contra1 , ' contra2 , ' contra3 , ' contra4 , ' contra5 , ' f1 , ' f2 ) FGcontrabd rel ) "
unfolding set1_FGcontra_def bd_FGcontra_def using set1_F_bound .
lemma mapl_FGcontra_contrang :
assumes " \ < And > z . z \ < in > set1_FGcontra x \ < Longrightarrow > l1 z = l1 ' z "
shows " mapl_FGcontra l1 x = mapl_FGcontra l1 ' x "
unfolding mapl_FGcontra_def map_FGcontra_def mapl_G_def [ symmetric ] mapl_F_def [ symmetric ] mapl_G_id0
by ( auto 0 3 intro : mapl_F_cong assms simp add : set1_FGcontra_def )
lemma rell_FGcontra_mono_strong :
assumes " rell_FGcontra L1 x y "
and " \ < And > a b . a \ < in > set1_FGcontra x \ < Longrightarrow > b \ < in > set1_FGcontra y \ < Longrightarrow > L1 a b \ < Longrightarrow > L1 ' a b "
" ell_FGcontra x y
using assms ( 1 ) unfolding rell_FGcontra_def rel_FGcontra_def rel_G_eq rell_F_def [ symmetric ]
by ( auto 0 3 intro : rell_F_mono_strong assms ( 2 ) simp add : set1_FGcontra_def )
subsection \ < open > Composition in a fixed position \ < close >
type_synonym ( ' l1 , ' l2 , ' co1 , ' co2 , ' contra1 , ' contra2 , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf =
" ( ' l1 , ' l2 , ' f2 , ' co1 , ' co2 , ' f4 , ' contra1 , ' contra2 , ' f6 , ( ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) G ) F "
text \ < open > The type variables @ { typ ' f2 } , @ { typ ' f4 } and @ { typ ' f6 } have each been merged . \ < close >
definition " rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 =
rel_F L1 L2 ( = ) Co1 Co2 ( = ) Contra1 Contra2 ( = ) "
definition " map_FGf l1 l2 co1 co2 contra1 contra2 = map_F l1 l2 id co1 co2 id contra1 contra2 id "
lemma rel_FGf_mono :
" \ < lbrakk > L1 \ < le > L1 ' ; L2 \ < le > L2 ' ; Co1 \ < le > Co1 ' ; Co2 \ < le > Co2 ' ; Contra1 ' \ < le > Contra1 ; Contra2 ' \ < le > Contra2 \ < rbrakk > \ < Longrightarrow >
rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 \ < le > rel_FGf L1 ' L2 ' Co1 ' Co2 ' Contra1 ' Contra2 ' "
unfolding rel_FGf_def by ( rule rel_F_mono ) ( auto )
lemma rel_FGf_eq : " rel_FGf ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) = ( = ) "
unfolding rel_FGf_def by assumes " < > z . in > set1_FGcontra \ > l1 z l1 "
lemma rel_FGf_conversep :
" rel_FGf L1 \ < inverse > \ < inverse > L2 \ < inverse > \ < inverse > Co1 \ < inverse > \ < inverse > Co2 \ < inverse > \ < inverse > Contra1 \ < inverse > \ < inverse > Contra2 \ < inverse > \ < inverse > = ( rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 ) \ < inverse > \ < inverse > "
unfolding rel_FGf_def by ( simp add : rel_F_conversep [ symmetric ] )
lemma map_FGf_id0 : " map_FGf id id id id id id = id "
unfolding map_FGf_def by ( simp add : map_F_id0 )
lemma map_FGf_comp " map_FGf l2 co1 co2 contra1 contra2 < >
map_FGf l1 ' l2 ' co1 ' co2 ' contra1 ' contra2 ' =
map_FGf ( l1 \ < circ > l1 ' ) ( l2 \ < circ > l2 ' ) ( co1 \ < circ > co1 ' ) ( co2 \ < circ > co2 ' ) ( contra1 ' \ < circ > contra1 ) ( contra2 ' \ < circ > contra2 ) "
unfolding map_FGf_def by ( simp add : map_F_comp )
lemma map_FGf_parametric :
" rel_fun ( rel_fun L1 L1 ' ) ( rel_fun ( rel_fun L2 L2 ' )
( rel_fun ( rel_fun Co1 Co1 ' ) ( rel_fun ( rel_fun Co2 Co2 ' )
( rel_fun ( rel_fun Contra1 ' Contra1 ) ( rel_fun ( rel_fun Contra2 ' Contra2 )
( rel_fun ( rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 )
( rel_FGf L1 ' L2 ' Co1 ' Co2 ' Contra1 ' Contra2 ' ) ) ) ) ) ) )
map_FGf map_FGf "
unfolding rel_FGf_def map_FGf_def
apply ( intro rel_funI )
apply ( elim map_F_rel_cong )
apply ( simp_all )
apply ( erule ( 2 ) rel_funE ) +
done
definition rel_FGf_pos_distr_cond
( ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co2 lemma
( ' contra1 \ < Rightarrow > ' contra1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra1 ' \ < Rightarrow > ' contra1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself \ < Rightarrow > bool " where
" rel_FGf_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 ' Contra2 Contra2 ' _ \ < longleftrightarrow >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > bool ) ( L1 ' : : ' l1 ' \ < Rightarrow > ' l1 ' ' \ < Rightarrow > bool )
( L2 : : ' l2 \ < Rightarrow > ' l2 ' \ < Rightarrow > bool ) ( L2 ' : : ' l2 ' \ < Rightarrow > ' l2 ' ' \ < Rightarrow > bool ) .
( rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 : :
( _ , _ , _ , _ , _ , _ , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf \ < Rightarrow > _ ) OO
rel_FGf L1 ' L2 ' Co1 ' Co2 ' Contra1 ' Contra2 ' \ < le >
rel_FGf ( L1 OO L1 ' ) ( L2 OO L2 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) ) "
definition rel_FGf_neg_distr_cond : : " ( ' co1 \ < Rightarrow > ' co1 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co1 ' \ < Rightarrow > ' co1 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' co2 \ < Rightarrow > ' co2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' co2 ' \ < Rightarrow > ' co2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( Co1 rel_fun rel_fun Co2 Co2
( ' contra2 \ < Rightarrow > ' contra2 ' \ < Rightarrow > bool ) \ < Rightarrow > ( ' contra2 ' \ < Rightarrow > ' contra2 ' ' \ < Rightarrow > bool ) \ < Rightarrow >
( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself \ < Rightarrow > bool " where
" rel_FGf_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 ' Contra2 Contra2 ' _ \ < longleftrightarrow >
( \ < forall > ( L1 : : ' l1 \ < Rightarrow > ' l1 ' \ < Rightarrow > bool ) ( L1 ' : : ' l1 ' \ < Rightarrow > ' l1 ' ' \ < Rightarrow > bool )
( L2 : : ' l2 \ < Rightarrow > ' l2 ' \ < Rightarrow > bool ) ( L2 ' : : ' l2 ' \ < Rightarrow > ' l2 ' ' \ < Rightarrow > bool ) .
rel_FGf ( L1 OO L1 ' ) ( L2 OO L2 ' ) ( Co1 OO Co1 ' ) ( Co2 OO Co2 ' )
( Contra1 OO Contra1 ' ) ( Contra2 OO Contra2 ' ) \ < le >
( rel_FGf L1 L2 Co1 Co2 Contra1 Contra2 : :
( _ , _ , _ , _ , _ , _ , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf \ < Rightarrow > _ ) OO
rel_FGf L1 ' L2 ' Co1 ' Co2 ' Contra1 ' Contra2 ' ) "
text \ < open > Sufficient conditions for subdistributivity over relation composition . \ < close >
lemma rel_FGf_pos_distr_imp :
fixes tytok_F : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times > ' f2 \ < times > ' f2 \ < times > ' f2 \ < times >
( ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) G ) itself "
and tytok_FGf : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself "
assumes " rel_F_pos_distr_cond Co1 Co1 ' Co2 Co2 ' ( ( = ) : : ' f4 \ < Rightarrow > _ ) ( ( = ) : : ' f4 \ < Rightarrow > _ )
Contra1 Contra1 ' Contra2 Contra2 ' ( ( = ) : : ' f6 \ < Rightarrow > _ ) ( ( = ) : : ' f6 \ < Rightarrow > _ ) tytok_F "
shows " rel_FGf_pos_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 ' Contra2 Contra2 ' tytok_FGf "
unfolding rel_FGf_pos_distr_cond_def rel_FGf_def
apply ( intro allI )
apply ( rule order_trans )
apply ( rule rel_F_pos_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( simp_all add : eq_OO )
done
lemma rel_FGf_neg_distr_imp :
fixes tytok_F : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times > ' f2 \ < times > ' f2 \ < times > ' f2 \ < times >
( ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) G ) itself "
and tytok_FGf : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself "
assumes Co1 Co1 ' Co2 Co2 ' ( ( = ) : ' \ Rightarrow _ ( = : ' f4 \ Rightarrow > _ )
Contra1 Contra1 ' Contra2 Contra2 ' ( ( = ) : : ' f6 \ < Rightarrow > _ ) ( ( = ) : : ' f6 \ < Rightarrow > _ ) tytok_F "
shows " rel_FGf_neg_distr_cond Co1 Co1 ' Co2 Co2 ' Contra1 Contra1 ' Contra2 Contra2 ' tytok_FGf "
unfolding rel_FGf_neg_distr_cond_def rel_FGf_def
apply ( intro allI )
apply ( rule order_trans [ rotated ] )
apply ( rule rel_F_neg_distr )
apply ( rule assms ( 1 ) )
apply ( rule rel_F_mono )
apply ( simp_all add : eq_OO )
done
lemma rel_FGf_pos_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself "
shows " rel_FGf_pos_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
by ( intro rel_FGf_pos_distr_imp rel_F_pos_distr_cond_eq )
lemma rel_FGf_neg_distr_cond_eq :
fixes tytok : : " ( ' l1 \ < times > ' l1 ' \ < times > ' l1 ' ' \ < times > ' l2 \ < times > ' l2 ' \ < times > ' l2 ' ' \ < times >
' f1 \ < times > ' f2 \ < times > ' f3 \ < times > ' f4 \ < times > ' f5 \ < times > ' f6 \ < times > ' f7 ) itself "
shows " rel_FGf_neg_distr_cond ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) ( = ) tytok "
by ( intro rel_FGf_neg_distr_imp rel_F_neg_distr_cond_eq )
definition " rell_FGf L1 L2 = rel_FGf L1 L2 ( = ) ( = ) ( = ) ( = ) "
definition " mapl_FGf l1 l2 = map_FGf l1 l2 id id id id "
type_synonym ( ' co1 , ' co2 , ' contra1 , ' contra2 , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGfbd =
" ( ' co1 , ' co2 , ' f4 , ' contra1 , ' contra2 , ' f6 , ( ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) G ) Fbd "
definition set1_FGf : : " ( ' l1 , ' l2 , ' co1 , ' co2 , ' contra1 , ' contra2 ,
' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf \ < Rightarrow > ' l1 set " where
" set1_FGf x = set1_F x "
definition set2_FGf : : " ( ' l1 , ' l2 , ' co1 , ' co2 , ' contra1 , ' contra2 ,
' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf \ < Rightarrow > ' l2 set " where
" set2_FGf x = set2_F x "
definition bd_FGf : : " ( ' co1 , ' co2 , ' contra1 , ' contra2 , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGfbd rel "
where " bd_FGf = bd_F "
lemma set1_FGf_map : " set1_FGf \ < circ > mapl_FGf l1 l2 = image l1 \ < circ > set1_FGf "
by ( simp add : fun_eq_iff set1_FGf_def mapl_FGf_def map_FGf_def mapl_F_def [ symmetric ]
set1_F_map [ THEN fun_cong , simplified ] )
lemma bd_FGf_card_order : " card_order bd_FGf "
unfolding bd_FGf_def using bd_F_card_order .
lemma bd_FGf_cinfinite : " cinfinite bd_FGf "
unfolding bd_FGf_def using bd_F_cinfinite .
lemma
fixes x : : " ( _ , _ , ' co1 , ' co2 , ' contra1 , ' contra2 , ' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGf "
shows set1_FGf_bound : " card_of ( set1_FGf x ) < o ( bd_FGf : : ( ' co1 , ' co2 , ' contra1 , ' contra2 ,
' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGfbd rel ) "
and set2_FGf_bound : " card_of ( set2_FGf x ) < o ( bd_FGf : : ( ' co1 , ' co2 , ' contra1 , ' contra2 ,
' f1 , ' f2 , ' f3 , ' f4 , ' f5 , ' f6 , ' f7 ) FGfbd rel ) "
unfolding set1_FGf_def set2_FGf_def bd_FGf_def by ( rule set1_F_bound set2_F_bound ) +
lemma mapl_FGf_cong :
assumes " \ < And > z . z \ < in > set1_FGf x \ < Longrightarrow > l1 z = l1 ' z " and " \ < And > z . z \ < in > set2_FGf x \ < Longrightarrow > l2 z = l2 ' z "
shows " mapl_FGf l1 l2 x = mapl_FGf l1 ' l2 ' x "
unfolding mapl_FGf_def map_FGf_def mapl_F_def [ symmetric ]
by ( auto 0 3 intro : mapl_F_cong assms simp add : set1_FGf_def set2_FGf_def )
lemma rell_FGf_mono_strong :
assumes " rell_FGf L1 L2 x y "
and " \ < And > a b . a \ < in > set1_FGf x \ < Longrightarrow > b \ < in > set1_FGf y \ < Longrightarrow > L1 a b \ < Longrightarrow > L1 ' a b "
and " \ < And > a b . a \ < in > set2_FGf x \ < Longrightarrow > b \ < in > set2_FGf y \ < Longrightarrow > L2 a b \ < Longrightarrow > L2 ' a b "
rell_FGf ' y
using assms ( 1 ) unfolding rell_FGf_def rel_FGf_def rell_F_def [ symmetric ]
by ( auto 0 3 intro : rell_F_mono_strong assms ( 2 - 3 ) simp add : set1_FGf_def set2_FGf_def )
end
Messung V0.5 in Prozent C=71 H=-40 G=57
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